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Crane, Paul K.

https://orcid.org/0000-0003-4278-7465

Mayo Clinic

University of Washington Medical Center

Citations 29

Admixture Mapping of Lipid Traits in Hispanic Americans
Ding, Keyue , Johar, Angad , Zaidi, Arslan A. , Crane, Paul K. , Jarvik, Gail P. , Karlson, Elizabeth W. , Rosenthal, Elisabeth A. , Stanaway, Ian B. , Schaid, Daniel J. , Johar, Angad S , Zaidi, Arslan , Jarvik, Gail P , Karlson, Elizabeth W , Rosenthal, Elisabeth A , Schaid, Daniel J , Kullo, Iftikhar J , Edwards, Digna R. Velez , Weng, Chunhua , Kullo, Iftikhar J.

Journal of the American Heart Association | November 3, 2025 | Volume: 14 | Issue: 21 | Pages: No page available

10.1161/jaha.124.036650 Get It

Background Admixture mapping can be leveraged to identify genomic loci associated with disease traits in admixed individuals such as Hispanic Americans. Methods and Results We characterized fine‐scale population structure of participants (n=105 108) in the multiethnic eMERGE‐III (electronic Medical Records and Genomics) cohort, using reference panels from the 1000 Genomes Project and a Native American cohort. We defined “genetically admixed Hispanic Americans” as those having ≥10% Native American genetic ancestry (n=5025), in addition to European (specifically, Iberian) and African genetic ancestry. This population descriptor was subsequently applied to 3 other cohorts: the MESA (Multi‐Ethnic Study of Atherosclerosis; n=1176), WHI (Women’s Health Initiative; n=2873), and the HCHS/SOL (Hispanic Community Health Study/Study of Latinos; n=7804). We inferred local ancestry along the genome in genetically admixed Hispanic Americans in each cohort using RFMix2 with phased haplotypes from SHAPEIT2. Local ancestry proportions were used for admixture mapping of lipid traits (low‐density lipoprotein cholesterol, high‐density lipoprotein cholesterol, total cholesterol, and triglycerides) using extended linear mixed models that incorporated multiple or single ancestries. After accounting for fixed‐effect covariates and random effects, ancestry proportions at the following loci were associated with lipid traits in the HCHS/SOL cohort: 11q12.2 ( P =6.8×10 −7 ) with low‐density lipoprotein cholesterol, 2p23.3 ( P =5.2×10 −7 ) with total cholesterol, and 11q23.3 ( P =7.3×10 −12 ) with triglycerides. The LDL cholesterol and triglyceride loci replicated in at least one independent cohort, whereas the total cholesterol locus showed suggestive evidence for replication in the eMERGE cohort ( P =0.073). Native American (NAMR) ancestry appeared to drive the LDL‐C association, whereas both NAMR and Iberian population in Spain (IBS) ancestries contributed to the triglyceride signal. Conclusions Admixture mapping in genetically admixed Hispanic Americans identified genomic loci influencing lipid traits and the different ancestral origins driving these associations.
Approaches to Timescale Choice in Cognitive Aging Research and Potential Implications for Estimated Exposure Effects: Coordinated Analyses in 10 Cohorts of Older Adults
Hayes‐Larson, Eleanor , Andrews, Ryan M. , Kezios, Katrina , Bercu, Ariane, Rouanet, Anaïs , Helmer, Catherine , Crane, Paul K. , Klinedinst, Brandon S. , McEvoy, Linda K. , Weuve, Jennifer , Rajan, Kumar B. , Shaw, Crystal , Sims, Kendra D. , Therneau, Terry M. , Petersen, Ronald C., Bouteloup, Vincent , Gross, Alden L. , Albert, Marilyn, Morris, John C., Resnick, Susan M. , Turney, Indira C. , Vonk, Jet M. J. , Avila‐Rieger, Justina , Weigand, Alexandra J. , Chen, Ruijia , Wang, Jingxuan , Mayeda, Elizabeth Rose , Klinedinst, Brandon S , McEvoy, Linda K , Weuve, Jennifer , Mez, Jesse , Sims, Kendra D , Therneau, Terry , Albert, Marilyn S. , Masters, Colin L , Resnick, Susan M , Maruff, Paul , Manly, Jennifer J , Turney, Indira C , Vonk, Jet M J , Avila-Rieger, Justina , Weigand, Alexandra , Mayeda, Elizabeth Rose , Gibbons, Laura E. , Nichols, Emma , Rajan, Kumar Bharat , Hwang, Phillip H , Mez, Jesse , Farina, Mateo P. , Morris, John C. , Masters, Colin L. , Maruff, Paul , Manly, Jennifer J. , Proust‐Lima, Cécile

Epidemiology | March 31, 2025 | Volume: 36 | Issue: 4 | Pages: 560-571

10.1097/ede.0000000000001859 Get It

Background: Cognitive change is an important factor in understanding dementia. Estimating effects of exposures on cognitive change requires choosing an analytical timescale, typically time on study or current age. There is limited consensus regarding timescale choice in epidemiologic cognitive aging research. Methods: Using a coordinated analytic approach in 10 cohorts of older adults, we evaluated whether estimated effects of two exposures on memory change differed depending on timescale (time on study or current age). We modeled effects of apolipoprotein-E (APOE) ε4 genotype (a time-invariant exposure) and diabetes (a potentially time-varying/acquired exposure evaluated at baseline) using mixed-effects models with linear and nonlinear time specifications for both timescales. Results: Among APOE ε4 carriers, model-estimated memory scores at baseline (time on study timescale) or at each cohort’s median baseline age (current age timescale) were lower, and the average rate of decline was faster than among APOE ε4 noncarriers. Model-estimated memory scores at baseline or at median baseline age were generally similar across baseline diabetes status, with variability across cohorts in the diabetes-memory change association. In some cohorts, trends in diabetes-memory change associations differed in direction across timescales. Conclusions: Timescale was largely inconsequential for estimated effects of APOE genotype, but yielded differences in estimated diabetes effects, raising questions about the appropriate scale. The current age scale may be problematic because diabetes was measured heterogeneously in age across individuals, a common issue in aging cohorts. Our work demonstrates approaches to evaluate alternative timescales, including in multicohort analyses, and highlights potential implications for estimated exposure effects on cognitive change.
Characterizing variability of electronic health record-driven phenotype definitions
Brandt, Pascal , Luo, Yuan , Pacheco, Jennifer A. , Walunas, Theresa L. , Håkonarson, Håkon , Liu, Cong , Walton, Nephi , Carrell, David , Crane, Paul K. , Chute, Christopher G. , Carroll, Robert J. , Denny, Joshua C. , Ramirez, Andrea H. , Wei, Wei‐Qi, Pathak, Jyoti , Wiley, Laura K. , Richesson, Rachel , Starren, Justin , Rasmussen, Luke V. , Brandt, Pascal S , Luo, Yuan , Pacheco, Jennifer A , Hakonarson, Hakon , Liu, Cong , Carrell, David S , Chute, Christopher G , Wiley, Laura K , Starren, Justin B , Rasmussen, Luke V , Denny, Joshua C , Richesson, Rachel L , Wei, Wei-Qi , Walunas, Theresa L , Kho, Abel , Hripcsak, George , Shang, Ning , Weng, Chunhua , Larson, Eric B. , Kullo, Iftikhar J. , Pathak, Jyoti

Journal of the American Medical Informatics Association | December 7, 2022 | Volume: 30 | Issue: 3 | Pages: 427-437

10.1093/jamia/ocac235 Get It

AbstractObjectiveThe aim of this study was to analyze a publicly available sample of rule-based phenotype definitions to characterize and evaluate the variability of logical constructs used.Materials and MethodsA sample of 33 preexisting phenotype definitions used in research that are represented using Fast Healthcare Interoperability Resources and Clinical Quality Language (CQL) was analyzed using automated analysis of the computable representation of the CQL libraries.ResultsMost of the phenotype definitions include narrative descriptions and flowcharts, while few provide pseudocode or executable artifacts. Most use 4 or fewer medical terminologies. The number of codes used ranges from 5 to 6865, and value sets from 1 to 19. We found that the most common expressions used were literal, data, and logical expressions. Aggregate and arithmetic expressions are the least common. Expression depth ranges from 4 to 27.DiscussionDespite the range of conditions, we found that all of the phenotype definitions consisted of logical criteria, representing both clinical and operational logic, and tabular data, consisting of codes from standard terminologies and keywords for natural language processing. The total number and variety of expressions are low, which may be to simplify implementation, or authors may limit complexity due to data availability constraints.ConclusionsThe phenotype definitions analyzed show significant variation in specific logical, arithmetic, and other operators but are all composed of the same high-level components, namely tabular data and logical expressions. A standard representation for phenotype definitions should support these formats and be modular to support localization and shared logic.
Quantifying the phenome‐wide disease burden of obesity using electronic health records and genomics
Robinson, Jamie R. , Carroll, Robert J. , Bastarache, Lisa , Pirruccello, James P. , Mou, Zongyang , Wei, Wei‐Qi, Mentch, Frank , Crane, Paul K. , Hebbring, Scott J. , Crosslin, David R. , Rosenthal, Elisabeth A. , Stanaway, Ian B. , Petukhova, Lynn , Namjou‐Khales, Bahram, Zhang, Ge , Safarova, Mayya S., Walton, Nephi , Still, Christopher D. , Böttinger, Erwin P. , Loos, Ruth J. F. , Murphy, Shawn N. , Jarvik, Gail P. , Larson, Eric B. , Roden, Dan M. , Denny, Joshua C. , Safarova, Maya , Denny, Joshua C , Jarvik, Gail P , Loos, Ruth J F , Chen, Qingxia , Connolly, John J. , Gordon, Adam S., Hayes, M. Geoffrey , Wei, Wei , Jackson, Gretchen Purcell , Abumrad, Naji N. , Kullo, Iftikhar J. , Weng, Chunhua , Roden, Dan M. , Khera, Amit V.

Obesity | November 14, 2022 | Volume: 30 | Issue: 12 | Pages: 2477-2488

10.1002/oby.23561 Get It

AbstractObjectiveHigh BMI is associated with many comorbidities and mortality. This study aimed to elucidate the overall clinical risk of obesity using a genome‐ and phenome‐wide approach.MethodsThis study performed a phenome‐wide association study of BMI using a clinical cohort of 736,726 adults. This was followed by genetic association studies using two separate cohorts: one consisting of 65,174 adults in the Electronic Medical Records and Genomics (eMERGE) Network and another with 405,432 participants in the UK Biobank.ResultsClass 3 obesity was associated with 433 phenotypes, representing 59.3% of all billing codes in individuals with severe obesity. A genome‐wide polygenic risk score for BMI, accounting for 7.5% of variance in BMI, was associated with 296 clinical diseases, including strong associations with type 2 diabetes, sleep apnea, hypertension, and chronic liver disease. In all three cohorts, 199 phenotypes were associated with class 3 obesity and polygenic risk for obesity, including novel associations such as increased risk of renal failure, venous insufficiency, and gastroesophageal reflux.ConclusionsThis combined genomic and phenomic systematic approach demonstrated that obesity has a strong genetic predisposition and is associated with a considerable burden of disease across all disease classes.
The Second NINDS/NIBIB Consensus Meeting to Define Neuropathological Criteria for the Diagnosis of Chronic Traumatic Encephalopathy
Bieniek, Kevin F. , Cairns, Nigel J. , Crary, John F. , Folkerth, Rebecca D., Keene, C. Dirk , Perl, Daniel P. , Stein, Thor D. , Vonsattel, Jean‐Paul, Stewart, William , Gordon, Wayne A., Alvarez, Victor E., Alosco, Michael L. , McKee, Ann C. , Babcock, Debra, Bellgowan, Patrick S.F. , Crane, Paul K. , Edlow, Brian L. , Huber, Bertrand R., Kiernan, Patrick T. , Dickson, Dennis W. , Litvan, Irene , Dams-O’Connor, Kristen , Tripodis, Yorghos , Mez, Jesse , Huber, Bertrand R. , Koroshetz, Walter J.

Journal of Neuropathology & Experimental Neurology | February 21, 2021 | Volume: 80 | Issue: 3 | Pages: 210-219

10.1093/jnen/nlab001 Get It

Abstract Chronic traumatic encephalopathy (CTE) is a neurodegenerative disorder associated with exposure to head trauma. In 2015, a panel of neuropathologists funded by the NINDS/NIBIB defined preliminary consensus neuropathological criteria for CTE, including the pathognomonic lesion of CTE as “an accumulation of abnormal hyperphosphorylated tau (p-tau) in neurons and astroglia distributed around small blood vessels at the depths of cortical sulci and in an irregular pattern,” based on review of 25 tauopathy cases. In 2016, the consensus panel met again to review and refine the preliminary criteria, with consideration around the minimum threshold for diagnosis and the reproducibility of a proposed pathological staging scheme. Eight neuropathologists evaluated 27 cases of tauopathies (17 CTE cases), blinded to clinical and demographic information. Generalized estimating equation analyses showed a statistically significant association between the raters and CTE diagnosis for both the blinded (OR = 72.11, 95% CI = 19.5–267.0) and unblinded rounds (OR = 256.91, 95% CI = 63.6–1558.6). Based on the challenges in assigning CTE stage, the panel proposed a working protocol including a minimum threshold for CTE diagnosis and an algorithm for the assessment of CTE severity as “Low CTE” or “High CTE” for use in future clinical, pathological, and molecular studies.
Novel Alzheimer Disease Risk Loci and Pathways in African American Individuals Using the African Genome Resources Panel
Kunkle, Brian W. , Schmidt, Michael A. , Klein, Hans‐Ulrich , Hamilton‐Nelson, Kara L., Larson, Eric B., Evans, Denis A., Jager, Phil L. De, Crane, Paul K. , Buxbaum, Joseph D. , Ertekin‐Taner, Nilüfer , Barnes, Lisa L. , Fallin, M. Daniele , Go, Rodney C.P., Obisesan, Thomas O. , Bennett, David A. , Hall, Kathleen, Goate, Alison , Foroud, Tatiana M., Martin, Eden R. , Wang, Li‐San , Byrd, Goldie S. , Haines, Jonathan L. , Schellenberg, Gerard D., Mayeux, Richard , Pericak‐Vance, Margaret A. , Reitz, Christiane, Perrie, M. Adams, Roger, L. Albin, Liana, G Apostolova, Steven, Eschrich, Craig, S , Clinton, T. Baldwin, Robert, C. Barber, Barral, Sandra, Thomas, Gunther, James, T., Gary, W. Beecham, Eileen, H. Bigio, Thomas, D., Blacker, Deborah, Bradley, F. Boeve, James, D. Bowen, Boxer, Adam, James, R. Burke, Jeffrey, Morris, Nigel, J Cairns, Cynthia, M. Carlsson, Regina, M. Carney, Minerva, M. Carrasquillo, David, Hugh-Jones, Dick, Malcom, Dickson, Dennis, W., Doody, Rachelle S., Duara, Ranjan , Kelley, M. Faber, Thomas, Jaya , Kenneth, B., David, W. Fardo, Martin, Roger, Matthew, P. Frosch, Douglas, R. Galasko, Gearing, Marla , Daniel, Hervé, Gilbert, John, R., Robert, C. Green, John, Harding, Ronald, L. Hamilton, Hardy, John , Lindy, E. Harrell, Lawrence, Steve, Ryan, Mary, Matthew, J. Huentelman, Christine, M Hulette, Gail, P. Jarvik, Jin, Lee‐Way, Karydas, Anna, Mindy, J. Katz, John, S., Joel, H. Kramer, James, J. Lah, Andrew, Peter, Richard, B., Constantine, G. Lyketsos, Malamon, John , Daniel, Chammiran , Martiniuk, Frank , Masliah, Eliezer , Wayne, C. McCormick, Susan, M, Andrew, Nesbit M, McDonough, Stefan, Ann., Canfield, Mesulam, Marsel, Bruce, L. Miller, Carol, A. Miller, Thomas, J. Montine, Amanda, J. Myers, John, M. Olichney, Joseph, E. Parisi, Peskind, Elaine R. , Pierce, Aimee, Wayne, W. Poon, Joseph, F. Quinn, Raj, Ashok , Raskind, Murray A. , Reisch, Joan, S., John, M. Ringman, Erik, D. Roberson, Howard, J. Rosen, Donald, R. Royall, Mark, A. Sager, Julie, A. Schneider, Lon, Su, William, W. Seeley, Small, Scott A. , Sonnen, Joshua, A., Robert, Aiko, Rudolph, E. Tanzi, Juan, Caballero, Debby, W. Tsuang, Vivianna, M. Van Deerlin, Badri, Nabeel, Harry, Vanessa, Vonsattel, Jean Paul, Weıntraub, Sandra , Kathleen, A Welsh-Bohmer, Kirk, C W, Thomas, SubinVarghese, Randall, Linnell B., Wu, Chuang‐Kuo, Steven, G. Younkin, Yu, Lei , Yu, Chang‐En , Graff‐Radford, Neill R. , Martinez, Izri, Ayodele, Temitope , Cantwell, Laura B., Jean‐Francois, Melissa, Kuzma, Amanda , Adams, Lonnie D., Chung, Jaeyoon , Jun, Gyungah , Hendrie, Hugh C. , Reiman, Eric M. , Kowall, Neil W. , Golde, Todd E. , Saykin, Andrew J. , Starks, Takiyah D. , Albert, Marilyn S. , Petersen, Ronald , Sano, Mary , Wısnıewskı, Thomas , Vassar, Robert , Kaye, Jeffrey A., Henderson, Victor W. , DeCarli, Charles , LaFerla, Frank M. , Brewer, James B., Miller, Bruce L. , Swerdlow, Russell H. , Paulson, Henry L. , Trojanowski, John Q. , Chui, Helena C., Rosenberg, Roger N., Craft, Suzanne , Grabowski, Thomas J. , Asthana, Sanjay , Morris, John C. , Strittmatter, Stephen M. , Kukull, Walter A. , Asthana, Sanjay , Jarvik, Gail P. , Cribbs, David H. , Sonnen, Joshua A. , Bennett, David A. , Saykin, Andrew J , Miller, Bruce L , Jarvik, Gail P , Paulson, Henry L , Hardy, John , Morris, John C , Goate, Alison M , Sonnen, Joshua , Barnes, Lisa L , Naj, Adam Christian , Hamilton‐Nelson, Kara L. , Manly, Jennifer J. , Kamboh, M. Ilyas , Farrer, Lindsay A. , Abner, Erin L. , Atwood, Craig, S., Becker, James, T., Eileen, H Bigio, Blacker, Deborah , Cao, Chuanhai , Cruchaga, Carlos , Dickson, Dennis, W., Duara, Ranjan , David, W. Fardo, Farlow, Martin, R., Ferris, Steven H. , Geschwind, Daniel, H., Ghetti, Bernardino , Gilbert, John, R., Håkonarson, Håkon , Honig, Lawrence, S., Huebinger, Ryan, M., Matthew, J Huentelman, Kauwe, John, S.K., Keene, C. Dirk , Kim, Ronald, Leung, Yuk Yee , Li, Ge , Lipton, Richard, B., Marson, Daniel, C., McDavid, Andrew, N., Mesulam, Marsel M. , Bruce, L Miller, Mukherjee, Shubhabrata , O’Bryant, Sid, E., Potter, Huntington , Qu, Liming , Raj, Ashok, Reisberg, ‌Barry , Reisch, Joan, S., Rogaeva, Ekaterina A. , Julie, A Schneider, Schneider, Lon, S., William, W Seeley, Spina, Salvatore , George‐Hyslop, Peter St , Valladares, Otto , Vardarajan, Badri, N., Wilhelmsen, Kirk, C., Williamson, Jennifer , Wingo, Thomas, S., Woltjer, Randall, L., Steven, G Younkin, Zhao, Yi Chen , Logue, Mark W. , Adams, L.D., Vance, Jeffery M. , Cuccaro, Michael L. , Mez, Jesse , Lunetta, Kathryn L. , López, Oscar L. , Leverenz, James B. , Levey, Allan I. , Hyman, Bradley T. , Kaye, Jeffrey A., Eldik, Linda J. Van , Chui, Helena C.

JAMA Neurology | October 19, 2020 | Volume: 78 | Issue: 1 | Pages: 102

10.1001/jamaneurol.2020.3536 Get It

MAPT haplotype–stratified GWAS reveals differential association for AD risk variants
Strickland, Samantha L. , Reddy, Joseph S. , Allen, Mariet , N’Songo, Aurelie, Burgess, Jeremy D. , Corda, M, Ballard, Travis, Wang, Xue , Carrasquillo, Minerva M. , Jenkins, Gregory D. , Boehme, Kevin L. , Crane, Paul K. , Ertekin‐Taner, Nilüfer , Corda, Morgane M, Corda, Morgane M., Carrasquillo, Minerva M. , Biernacka, Joanna M. , Mukherjee, Shubhabrata , Kauwe, John S. K.

Alzheimer's & Dementia | May 13, 2020 | Volume: 16 | Issue: 7 | Pages: 983-1002

10.1002/alz.12099 Get It

AbstractIntroductionMAPT H1 haplotype is implicated as a risk factor for neurodegenerative diseases including Alzheimer's disease (AD).MethodsUsing Alzheimer's Disease Genetics Consortium (ADGC) genome‐wide association study (GWAS) data (n = 18,841), we conducted a MAPT H1/H2 haplotype–stratified association to discover MAPT haplotype–specific AD risk loci.ResultsWe identified 11 loci—5 in H2‐non‐carriers and 6 in H2‐carriers—although none of the MAPT haplotype–specific associations achieved genome‐wide significance. The most significant H2 non‐carrier–specific association was with a NECTIN2 intronic (P = 1.33E‐07) variant, and that for H2 carriers was near NKX6‐1 (P = 1.99E‐06). The GABRG2 locus had the strongest epistasis with MAPT H1/H2 variant rs8070723 (P = 3.91E‐06). Eight of the 12 genes at these loci had transcriptome‐wide significant differential expression in AD versus control temporal cortex (q < 0.05). Six genes were members of the brain transcriptional co‐expression network implicated in “synaptic transmission” (P = 9.85E‐59), which is also enriched for neuronal genes (P = 1.0E‐164), including MAPT.DiscussionThis stratified GWAS identified loci that may confer AD risk in a MAPT haplotype–specific manner. This approach may preferentially enrich for neuronal genes implicated in synaptic transmission.
Association of Genetic Risk of Obesity with Postoperative Complications Using Mendelian Randomization
Robinson, Jamie R. , Carroll, Robert J. , Bastarache, Lisa , Mou, Zongyang , Wei, Wei‐Qi, Connolly, John J. , Mentch, Frank , Sleiman, Patrick , Crane, Paul K. , Hebbring, Scott J. , Stanaway, Ian B. , Crosslin, David R. , Gordon, Allan , Rosenthal, Elisabeth A. , Petukhova, Lynn , Namjou, Bahram , Safarova, Maya , Walton, Nephi , Still, Christopher D. , Böttinger, Erwin P. , Loos, Ruth J. F. , Murphy, Shawn N. , Håkonarson, Håkon , Jarvik, Gail P. , Larson, Eric B. , Roden, Dan M. , Denny, Joshua C. , Safarova, Maya S, Hakonarson, Hakon , Denny, Joshua C , Jarvik, Gail P , Gordon, Adam S , Wei, Wei-Qi , Loos, Ruth J F , Connolly, John J , Chen, Qingxia , Carrell, David , Hayes, M. Geoffrey , Wei, Wei , Zhang, Ge, Jackson, Gretchen Purcell , Kullo, Iftikhar J. , Weng, Chunhua , Roden, Dan M.

World Journal of Surgery | October 11, 2019 | Volume: 44 | Issue: 1 | Pages: 84-94

10.1007/s00268-019-05202-9 Get It

AbstractBackgroundThe extent to which obesity and genetics determine postoperative complications is incompletely understood.MethodsWe performed a retrospective study using two population cohorts with electronic health record (EHR) data. The first included 736,726 adults with body mass index (BMI) recorded between 1990 and 2017 at Vanderbilt University Medical Center. The second cohort consisted of 65,174 individuals from 12 institutions contributing EHR and genome‐wide genotyping data to the Electronic Medical Records and Genomics (eMERGE) Network. Pairwise logistic regression analyses were used to measure the association of BMI categories with postoperative complications derived from International Classification of Disease‐9 codes, including postoperative infection, incisional hernia, and intestinal obstruction. A genetic risk score was constructed from 97 obesity‐risk single‐nucleotide polymorphisms for a Mendelian randomization study to determine the association of genetic risk of obesity on postoperative complications. Logistic regression analyses were adjusted for sex, age, site, and race/principal components.ResultsIndividuals with overweight or obese BMI (≥25 kg/m2) had increased risk of incisional hernia (odds ratio [OR] 1.7–5.5, p < 3.1 × 10−20), and people with obesity (BMI ≥ 30 kg/m2) had increased risk of postoperative infection (OR 1.2–2.3, p < 2.5 × 10−5). In the eMERGE cohort, genetically predicted BMI was associated with incisional hernia (OR 2.1 [95% CI 1.8–2.5], p = 1.4 × 10−6) and postoperative infection (OR 1.6 [95% CI 1.4–1.9], p = 3.1 × 10−6). Association findings were similar after limitation of the cohorts to those who underwent abdominal procedures.ConclusionsClinical and Mendelian randomization studies suggest that obesity, as measured by BMI, is associated with the development of postoperative incisional hernia and infection.
P2‐141: CHR17Q21 H2 HAPLOTYPE STRATIFIED GWAS REVEALS DIFFERENTIAL ASSOCIATION FOR AD RISK VARIANTS
Strickland, Samantha L. , Reddy, Joseph S. , Allen, Mariet , N’Songo, Aurelie, Corda, M, Ballard, Travis, Boehme, Kevin L. , Kauwe, John, Ertekin‐Taner, Nilüfer , ADGC, Burgess, Jeremy D. , Corda, Morgane M., Mukherjee, Shubhabrata , Crane, Paul K. , ADGC

Alzheimer's & Dementia | October 22, 2018 | Volume: 14 | Issue: 7S_Part_13 | Pages: No page available

10.1016/j.jalz.2018.06.827 Get It